Automatic Signaling, Train Stop, and Route Interlocking Installed in The
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NSG 604 Indicators and Signs
This is an uncontrolled copy. Before use, make sure that this is the current version by visiting www.railsafe.org.au/nsg NSG 604 signals and signs Indicators and signs General To describe the types of indicators and signs used in the Network. ............................................................................................... NOTE The Figures in this Rule show examples of the indicators and signs used in the Network. White or lunar white lights are shown in blue . ............................................................................................... Clearance posts Clearance posts may be located between two converging lines to show the clearance limit. Some clearance posts have: • a reflective background, or • a white light that must be illuminated at night or in conditions of low visibility. White reflective post forms Illuminated post form FIGURE 1: Examples of clearance posts ............................................................................................... NETWORK RULES MARCH 2019 V10.0 © SYDNEY TRAINS 2019 PAGE 1 OF 38 This is an uncontrolled copy. Before use, make sure that this is the current version by visiting www.railsafe.org.au/nsg NSG 604 signals and signs Indicators and signs Dead end lights Dead end lights are small red lights to indicate the end of dead end sidings. The lights display STOP indications only. If it is possible for a dead end light to be mistaken as a running signal at STOP, a white light above the red light is used to distinguish it from a running signal. FIGURE 2: Examples of dead end lights ............................................................................................... NETWORK RULES MARCH 2019 V10.0 © SYDNEY TRAINS 2019 PAGE 2 OF 38 This is an uncontrolled copy. Before use, make sure that this is the current version by visiting www.railsafe.org.au/nsg NSG 604 signals and signs Indicators and signs Guard’s indicator If it is possible for the signal at the exit-end of a platform to be obscured from a Guard’s view, a Guard’s indicator is placed over the platform. -
RAIB Report: Freight Train Derailment at Angerstein Junction on 3 June 2015
Oliver Stewart Senior Executive, RAIB Relationship and Recommendation Handling Telephone 020 7282 3864 E-mail [email protected] 4 June 2020 Mr Andrew Hall Deputy Chief Inspector of Rail Accidents Cullen House Berkshire Copse Rd Aldershot Hampshire GU11 2HP Dear Andrew, RAIB Report: Freight train derailment at Angerstein Junction on 3 June 2015 I write to provide an update1 on the action taken in respect of recommendation 3 addressed to ORR in the above report, published on 1 June 2016. The annex to this letter provides details of the action taken regarding the recommendation. The status of recommendation 3 is ‘Implemented’. We do not propose to take any further action in respect of the recommendation, unless we become aware that any of the information provided has become inaccurate, in which case I will write to you again. We will publish this response on the ORR website on 5 June 2020. Yours sincerely, Oliver Stewart 1 In accordance with Regulation 12(2)(b) of the Railways (Accident Investigation and Reporting) Regulations 2005 Annex A Recommendation 3 The intent of this recommendation is to ensure that the derailment risk at Angerstein Junction is adequately controlled. Network Rail should review and, if appropriate, alter the infrastructure configuration on the line between Angerstein Junction and Angerstein Wharf sidings to reduce its contribution to the derailment risk in the immediate vicinity of the 851A trap points. This review should include, but not be limited to, consideration of: • the wagon types and loads normally using the line; • the layout of the check rail; • the speed and braking profiles of trains using the line; • the locations and operation of signalling equipment; and • the location of the trap points, or the provision of alternative risk mitigation measures ORR decision 1. -
Federal Railroad Administration Office of Safety Headquarters Assigned Accident Investigation Report HQ-2006-24 CSX Transportati
Federal Railroad Administration Office of Safety Headquarters Assigned Accident Investigation Report HQ-2006-24 CSX Transportation (CSX) Richmond, Virginia April 22, 2006 Note that 49 U.S.C. §20903 provides that no part of an accident or incident report made by the Secretary of Transportation/Federal Railroad Administration under 49 U.S.C. §20902 may be used in a civil action for damages resulting from a matter mentioned in the report. DEPARTMENT OF TRANSPORTATION FRA FACTUAL RAILROAD ACCIDENT REPORT FRA File # HQ-2006-24 FEDERAL RAILROAD ADMINISTRATION 1.Name of Railroad Operating Train #1 1a. Alphabetic Code 1b. Railroad Accident/Incident No. CSX Transportation [CSX ] CSX R000022015 2.Name of Railroad Operating Train #2 2a. Alphabetic Code 2b. Railroad Accident/Incident N/A N/A N/A 3.Name of Railroad Responsible for Track Maintenance: 3a. Alphabetic Code 3b. Railroad Accident/Incident No. CSX Transportation [CSX ] CSX N/A 4. U.S. DOT_AAR Grade Crossing Identification Number 5. Date of Accident/Incident 6. Time of Accident/Incident Month Day Year 04 22 2006 05:19:00 AM PM 7. Type of Accident/Indicent 1. Derailment 4. Side collision 7. Hwy-rail crossing 10. Explosion-detonation 13. Other (single entry in code box) 2. Head on collision 5. Raking collision 8. RR grade crossing 11. Fire/violent rupture (describe in narrative) 3. Rear end collision 6. Broken Train collision 9. Obstruction 12. Other impacts 01 8. Cars Carrying 9. HAZMAT Cars 10. Cars Releasing 11. People 12. Division HAZMAT Damaged/Derailed HAZMAT Evacuated 0 0 0 0 FLORENCE 13. Nearest City/Town 14. -
[(Central] [Central, 6 E -1 4
/NEWYORK^ Fnewyork^ [(Central] [Central, 6 e -1 4 Reference Marks NEW YORK CENTRAL LC.L Between POPULAR ALL-COACH DAYLINER Dally. II Meal station. Sunday only. • Thla train does not carry baggage SERVICE ADVANTAGES Chicago, Pittsburgh & Boston Daily except Sunday- Ex. Sun.—Runs dally except Sunday. Daily except Monday. E.T.—Eastern Standard Time. Daily except Saturday. C.T.—Central Standard Time. In addition to the train service shown, buses of the United Traction Company run at frequent intervals between Albany and Troy. | I i^i ichedulot . pcart'd to 5 Packing and handling research Stops on signal to receive passengers for stations beyond Albuny. traffic requirement! for most ... they assure the security ol Stops to receive or discbarge passengers for or from Astatabula and beyond. Stops except Saturdays and Sundays. rX|M*llitioilH .1. Ii\ i-r n--. the shipped merchandise. bb Stops at 6.25 a. m. to discharge passengers from Rochester and beyond or to 2 Free pick up and delivery ser• receive passengers for Chicago. Smooth operation . easy 4 Stops on signal to receive passengers for beyond Troy. vice . direct from Hliippcr's grades... superlative roadbed. Stops on signal to discharge or receive passengers. to roiisipiirrV door. No baggage handled for or from this station; *y Constant supervision and pro• Stops regularly, but only to receive passengers. * f Optional trucking allowance to tection in transit.. still mon Stops only to discbarge passengers. nhi|»|MTH jiiul roiittignrcR ... a security for shipped merchan Runs Saturdays only. mi I • i i ii i ii I tavina to both. dise. -
Rtd Light Rail Design Criteria
RTD LIGHT RAIL DESIGN CRITERIA Regional Transportation District November 2005 Prepared by the Engineering Division of the Regional Transportation District Regional Transportation District 1600 Blake Street Denver, Colorado 80202-1399 303.628.9000 RTD-Denver.com November 28, 2005 The RTD Light Rail Design Criteria Manual has been developed as a set of general guidelines as well as providing specific criteria to be employed in the preparation and implementation of the planning, design and construction of new light rail corridors and the extension of existing corridors. This 2005 issue of the RTD Light Rail Design Criteria Manual was developed to remain in compliance with accepted practices with regard to safety and compatibility with RTD's existing system and the intended future systems that will be constructed by RTD. The manual reflects the most current accepted practices and applicable codes in use by the industry. The intent of this manual is to establish general criteria to be used in the planning and design process. However, deviations from these accepted criteria may be required in specific instances. Any such deviations from these accepted criteria must be approved by the RTD's Executive Safety & Security Committee. Coordination with local agencies and jurisdictions is still required for the determination and approval for fire protection, life safety, and security measures that will be implemented as part of the planning and design of the light rail system. Conflicting information or directives between the criteria set forth in this manual shall be brought to the attention of RTD and will be addressed and resolved between RTD and the local agencies andlor jurisdictions. -
Federal Railroad Administration, DOT § 235.7
Federal Railroad Administration, DOT § 235.7 railroads that operate on standard gage (5) Removal of an intermittent auto- track which is part of the general rail- matic train stop system in conjunction road system of transportation. with the implementation of a positive (b) This part does not apply to rail train control system approved by FRA rapid transit operations conducted over under subpart I of part 236 of this chap- track that is used exclusively for that ter. purpose and that is not part of the gen- (b) When the resultant arrangement eral system of railroad transportation. will comply with part 236 of this title, it is not necessary to file for approval § 235.5 Changes requiring filing of ap- to decrease the limits of a system as plication. follows: (a) Except as provided in § 235.7, ap- (1) Decrease of the limits of an inter- plications shall be filed to cover the locking when interlocked switches, de- following: rails, or movable-point frogs are not in- (1) The discontinuance of a block sig- volved; nal system, interlocking, traffic con- (2) Removal of electric or mechanical trol system, automatic train stop, lock, or signal used in lieu thereof, train control, or cab signal system or from hand-operated switch in auto- other similar appliance or device; matic block signal or traffic control (2) The decrease of the limits of a territory where train speed over the block signal system, interlocking, traf- switch does not exceed 20 miles per fic control system, automatic train hour; or stop, train control, or cab signal sys- (3) Removal of electric or mechanical tem; or lock, or signal used in lieu thereof, (3) The modification of a block signal from hand-operated switch in auto- system, interlocking, traffic control matic block signal or traffic control system, automatic train stop, train territory where trains are not per- control, or cab signal system. -
Developing Standards for New Technology Signal Systems for Rail Transit Applications
Transactions on the Built Environment vol 34, © 1998 WIT Press, www.witpress.com, ISSN 1743-3509 Developing standards for new technology signal systems for rail transit applications A. F. Rumsey Parsons Transportation, New York, U.S.A. Abstract Radio communications-based train control (CBTC) systems, also referred to as transmission-based signalling (TBS) systems, permit more effective utilization of rail transit infrastructure by allowing trains to operate safety at much closer headways, by permitting greater flexibility and greater precision in train control, and by providing continuous safe train separation assurance and overspeed protection. One of the challenges facing transit agencies who are considering the introduction of CBTC systems, however, is the lack of industry standards for this emerging technology, and the current inability of trains equipped with CBTC equipment from one supplier to operate on track equipped with CBTC equipment from a second supplier. This paper reports on the status of two separate initiatives being taken in North America to develop standards for CBTC systems for rail transit applications; one based on a voluntary consensus development approach, and the second based on a competitive procurement approach. 1 Background Conventional signalling and train control systems rely almost exclusively on track circuits to detect the presence of trains. Information on the status of the track ahead is provided to train operators either through wayside signals or trainborne cab signals. Ensuring compliance with the signals is achieved either through strict observance of operating procedures, or through automatic train protection features such as wayside electro-mechanical train stops, or trainborne supervisory equipment linked to the train's braking system. -
Low-Cost Highway-Rail Intersection Active Warning System Field
Low•Cost Highway•Rail Intersection Active Warning System Field Operational Test Evaluation Report Prepared for: December 2005 Low•Cost Highway•Rail Intersection Active Warning System Field Operational Test Evaluation Report Prepared for: Minnesota Department of Transportation Office of Traffic, Security and Operations Prepared by: URS Corporation and TranSmart Technologies, Inc. December 2005 Table of Contents EXECUTIVE SUMMARY .......................................................................................................... v 1. INTRODUCTION................................................................................................................. 1 1.1 ROJECTP PURPOSE............................................................................................................ 2 1.2 ARTICIPANTSP .................................................................................................................. 3 2. PROJECT BACKGROUND................................................................................................ 4 2.1 YSTEMS DEVELOPMENT, TESTING, AND FIELD OPERATIONAL TEST................................ 4 2.2 HUMAN FACTORS EVALUATION....................................................................................... 6 3. REVIEW OF EMERGING HRI TECHNOLOGY ........................................................... 7 3.1 OVERVIEW OF ACTIVE WARNING TECHNOLOGY ............................................................. 7 3.2 MERGINGE HRI TECHNOLOGY........................................................................................ -
LNW Route Specification 2017
Delivering a better railway for a better Britain Route Specifications 2017 London North Western London North Western July 2017 Network Rail – Route Specifications: London North Western 02 SRS H.44 Roses Line and Branches (including Preston 85 Route H: Cross-Pennine, Yorkshire & Humber and - Ormskirk and Blackburn - Hellifield North West (North West section) SRS H.45 Chester/Ellesmere Port - Warrington Bank Quay 89 SRS H.05 North Transpennine: Leeds - Guide Bridge 4 SRS H.46 Blackpool South Branch 92 SRS H.10 Manchester Victoria - Mirfield (via Rochdale)/ 8 SRS H.98/H.99 Freight Trunk/Other Freight Routes 95 SRS N.07 Weaver Junction to Liverpool South Parkway 196 Stalybridge Route M: West Midlands and Chilterns SRS N.08 Norton Bridge/Colwich Junction to Cheadle 199 SRS H.17 South Transpennine: Dore - Hazel Grove 12 Hulme Route Map 106 SRS H.22 Manchester Piccadilly - Crewe 16 SRS N.09 Crewe to Kidsgrove 204 M1 and M12 London Marylebone to Birmingham Snow Hill 107 SRS H.23 Manchester Piccadilly - Deansgate 19 SRS N.10 Watford Junction to St Albans Abbey 207 M2, M3 and M4 Aylesbury lines 111 SRS H.24 Deansgate - Liverpool South Parkway 22 SRS N.11 Euston to Watford Junction (DC Lines) 210 M5 Rugby to Birmingham New Street 115 SRS H.25 Liverpool Lime Street - Liverpool South Parkway 25 SRS N.12 Bletchley to Bedford 214 M6 and M7 Stafford and Wolverhampton 119 SRS H.26 North Transpennine: Manchester Piccadilly - 28 SRS N.13 Crewe to Chester 218 M8, M9, M19 and M21 Cross City Souh lines 123 Guide Bridge SRS N.99 Freight lines 221 M10 ad M22 -
Intelligent Transportation Systems at Highway-Rail Intersections a Cross-Cutting Study
Intelligent Transportation Systems at Highway-Rail Intersections A Cross-Cutting Study Improving Safety and Mobility at Highway-Rail Grade Crossings December 2001 Intelligent Transportation Systems at Highway-Rail Intersections: A Cross-Cutting Study i Executive Summary In 1997, the ITS Joint Program Office (JPO) at the Federal Highway Administration commissioned a study to identify projects being conducted in the U.S. that used Intelligent Transportation Systems (ITS) at highway-rail grade crossings, including not only those projects that were Federally-sponsored, but state and locally-sponsored ones, as well. The study identified seven projects that tested five functions: in-vehicle warning, second train warning, use of crossing blockage information for traveler information and traffic management, four quadrant gates with automatic train stop, and a comprehensive set of technologies called the Intelligent Grade Crossing. The following year, the JPO commissioned a cross-cutting study to examine the commonalities and differences among the seven projects. This report documents the findings of that cross-cutting study: · Several railroads were reluctant to fully participate in the projects due to liability, safety and operational concerns. Although there were exceptions, passenger railroads – and, in particular, light rail transit – tended to be more involved in these projects than freight railroads. · In all but one of the seven projects examined in this study, the largest share of funding came from the Federal level, through either direct Federal grants or Congressional designations. In the one project that was the exception to this rule, the largest share of funding came from a private sector technology vendor who made in-kind contributions, using the opportunity of the test to refine its prototype system. -
UPRR - General Code of Operating Rules
Union Pacific Rules UPRR - General Code of Operating Rules Seventh Edition Effective April 1, 2020 Includes Updates as of September 28, 2021 PB-20280 1.0: GENERAL RESPONSIBILITIES 2.0: RAILROAD RADIO AND COMMUNICATION RULES 3.0: Section Reserved 4.0: TIMETABLES 5.0: SIGNALS AND THEIR USE 6.0: MOVEMENT OF TRAINS AND ENGINES 7.0: SWITCHING 8.0: SWITCHES 9.0: BLOCK SYSTEM RULES 10.0: RULES APPLICABLE ONLY IN CENTRALIZED TRAFFIC CONTROL (CTC) 11.0: RULES APPLICABLE IN ACS, ATC AND ATS TERRITORIES 12.0: RULES APPLICABLE ONLY IN AUTOMATIC TRAIN STOP SYSTEM (ATS) TERRITORY 13.0: RULES APPLICABLE ONLY IN AUTOMATIC CAB SIGNAL SYSTEM (ACS) TERRITORY 14.0: RULES APPLICABLE ONLY WITHIN TRACK WARRANT CONTROL (TWC) LIMITS 15.0: TRACK BULLETIN RULES 16.0: RULES APPLICABLE ONLY IN DIRECT TRAFFIC CONTROL (DTC) LIMITS 17.0: RULES APPLICABLE ONLY IN AUTOMATIC TRAIN CONTROL (ATC) TERRITORY 18.0: RULES APPLICABLE ONLY IN POSITIVE TRAIN CONTROL (PTC) TERRITORY GLOSSARY: Glossary For business purposes only. Unauthorized access, use, distribution, or modification of Union Pacific computer systems or their content is prohibited by law. Union Pacific Rules UPRR - General Code of Operating Rules 1.0: GENERAL RESPONSIBILITIES 1.1: Safety 1.1.1: Maintaining a Safe Course 1.1.2: Alert and Attentive 1.1.3: Accidents, Injuries, and Defects 1.1.4: Condition of Equipment and Tools 1.2: Personal Injuries and Accidents 1.2.1: Care for Injured 1.2.2: Witnesses 1.2.3: Equipment Inspection 1.2.4: Mechanical Inspection 1.2.5: Reporting 1.2.6: Statements 1.2.7: Furnishing Information -
Development of Integrated Automatic Train Stop with Patterns (ATS-P) On-Board System
Computers in Railways VII, C.A. Brebbia J.Allan, R.J. Hill, G. Sciutto & S. Sone (Editors) © 2000 WIT Press, www.witpress.com, ISBN 1-85312-826-0 Development of integrated automatic train stop with patterns (ATS-P) on-board system M. Miyachi', H. Ikeda*, H. Tokuhashi* ' Safety Research Laboratory, * Hachioji Branch office East Japan Railway Company, Japan * Kyosan Electric MFG. Company, Japan Abstract The East Japan Railway Company (JR-East) has been introducing aggressively the ATS-P system, which has a high safety record in train operations in preventing serious train accidents since 1989. As the existing ATS-P on-board system has been used for 10 years, a number of problems for the on-board system are recently increasing. Investigation into the causes of these problems are difficult with to the existing system, which has not got appropriate recording devices. In order to improve the cost-effectiveness, the reliability and the maintenance of the system, the ATS-P on-board system should be completely re-designed. The authors have developed the integrated ATS-P on-board system. As a result, the system has the benefit of both the reduction in costs and the improvement in the reliability and also a reduction in the number of devices constituting the on-board system. The existing ATS-P on-board system is composed of several devices, but the integrated ATS-P on-board system is composed of only one main device, a smaller relay block and so on. This system shows results with about 70% of the cost and almost 133% of the reliability of the existing newest on-board system.